秘鲁首次报告 Ralstonia pseudosolanacearum 导致生姜细菌性枯萎病。

IF 4.4 2区 农林科学 Q1 PLANT SCIENCES Plant disease Pub Date : 2024-10-09 DOI:10.1094/PDIS-09-24-1874-PDN
José Soto-Heredia, Salome Ramos-Tito, Angelica Rodrigues Alves, Luciellen da Costa Ferreira, Luz Leonor Mattos Calderon, Maurício Rossato
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引用次数: 0

摘要

秘鲁约 90% 的生姜(Zingiber officinale)产量集中在胡宁地区,因为该地区拥有种植生姜的最佳农业生态条件。2024 年 3 月,胡宁地区、昌查马约省和萨蒂波省(特别是分别位于皮查纳基市和萨蒂波市)种植生姜(栽培品种 Criollo)的田地中,约 40% 的植株出现了严重的病害症状,最初表现为植株发黄,随后迅速发展为坏死。受影响的根茎表现为深色维管束,切开后有乳白色渗出物,而茎则表现为维管束坏死,阻碍水分和养分的运输,往往导致植株死亡。对 15 株植物进行取样,将根茎和茎上的病变维管束组织培养在营养琼脂(NA)上,在 28°C 下培养。72 小时后,所有分离菌株都产生了具有茄属拉氏菌(Ralstonia solanacearum)复合菌种(RSSC)典型特征的菌落,呈液态、不规则圆形和乳白色。通过使用引物 759/760(Opina 等人,1997 年)进行 PCR 鉴定,确认三个分离物(UNALM-RP01 至 03)为 RSSC,扩增产物为 282 bp。此外,根据分离物代谢三种产酸二糖(麦芽糖、乳糖、纤维生物糖)和三种六糖醇(甘露醇、山梨醇、杜冷丁醇)的能力,将其归入生物变种 3(Hayward,1964 年)。系统型 I 通过多重 PCR(引物 Nmult)与 114 bp 的扩增产物进行鉴定(Fegan 和 Prior,2005 年)。为了鉴定这三个分离株的序列,提取了 DNA,并用引物ENDO-F/R(Ji 等人,2007 年)进行 PCR 扩增和测序,得到了长度为 681 bp 的egl 基因部分序列。通过 10,000 次引导的邻接法进行系统发育,将 UNALM 分离物与 R. pseudosolanacearum 的其他 30 个序列聚类。这些序列以编号 PQ213016、PQ213017 和 PQ213018 存入 Genbank。在致病性试验中,用无菌针从培养基中刮取分离物 UNALM-RP01 的细菌菌落,并将其引入三株 2 个月大的生姜植株(栽培品种 Gigante)的茎中。接种后七天,植株出现黄化现象。此外,根茎内部也出现褪色和细菌渗出。三株植物作为对照,用消毒针刺入,未出现任何症状。病原体在 NA 培养基上从受感染的植物中成功地重新分离出来,呈现出 RSSC 的典型菌落,并通过引物 759/760 进行 PCR 鉴定,符合科赫假说。这是秘鲁首例生姜植物感染 Ralstonia 菌种的病例,特别是 R. solanacearum 系统型 I,相当于 R. pseudosolanacearum。众所周知,RSSC 和 sequevar 的这一菌种会导致生姜发病。然而,它在秘鲁的出现可能是病原体引入的结果,因为它的地理起源与亚洲有关(Fegan 和 Prior,2005 年)。据我们所知,这是秘鲁首次报道 R. pseudosolanacearum 引起生姜枯萎病。据估计,2024 年胡宁地区的平均产量将因枯萎病损失 30%,这对种植业构成了重大威胁。为了控制和减少进一步的损失,必须采取紧急和有效的病害管理策略。
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First Report of Ralstonia pseudosolanacearum Causing Bacterial Wilt in Ginger in Peru.

Around 90% of Peru's ginger (Zingiber officinale) production is concentrated in the Junín region, due to the optimal agroecological conditions for its cultivation. In March 2024, fields with ginger plants (cultivar Criollo) in Junín region, provinces Chanchamayo and Satipo, specifically in the cities of Pichanaqui and Satipo respectively, exhibited approximately 40% of plants with severe symptoms of a disease characterized initially by plant yellowing and rapid progressing to necrosis. Affected rhizomes showed dark vascular bundles with milky white exudates upon cutting, while stems displayed vascular necrosis hindering water and nutrient transport, often resulting in plant death. Fifteen plants were sampled and diseased vascular tissues from rhizomes and stems were cultured on nutrient agar (NA) and incubated at 28°C. After 72 h, all isolations resulted in colonies with typical characteristics of Ralstonia solanacearum species complex (RSSC) were produced, with appearing fluid, irregularly round, and creamy white. Three isolates were selected for the identification steps (UNALM-RP01 to 03) were identified by PCR using primers 759/760 (Opina et al. 1997) confirming as RSSC with a 282 bp amplification product. Additionally, isolates were assigned to biovar 3 based on their ability to metabolize three acid-producing disaccharides (maltose, lactose, cellobiose) and three hexose alcohols (mannitol, sorbitol, dulcitol) (Hayward, 1964). Phylotype I was identified by multiplex PCR (primers Nmult) with a 114 bp amplification product (Fegan and Prior 2005). For the identification of the sequevars of the three isolates, DNA was extracted and PCR with primers ENDO-F/R (Ji et al. 2007) were performed to amplify and sequence the partial gene sequence of egl gene with 681 bp in length. The phylogeny by Neighbor joining with 10,000 bootstraps clustered the UNALM isolates along other sequevar 30 of R. pseudosolanacearum. The sequences were deposited in Genbank under accessions PQ213016, PQ213017 and PQ213018. For pathogenicity tests, bacterial colonies of isolate UNALM-RP01 were scraped from the culture media with a sterile needle and introduced into the stems of three 2-month-old ginger plants (cultivar Gigante). The plants subsequently exhibited yellowing seven days post-inoculation. Additionally, the rhizomes showed internal discoloration and bacterial exudation. Three plants were used as a control, which were pierced with a sterilized needle and showed no symptoms. All tested plants were kept in a greenhouse with controlled temperature (20-40 °C) The pathogen was successfully re-isolated from infected plants on NA medium, presenting typical colonies of RSSC and identified via PCR with primers 759/760, fulfilling Koch's postulates. This represents the first case in Peru of ginger plants infected with a Ralstonia species, specifically R. solanacearum phylotype I, corresponding to R. pseudosolanacearum. This species of RSSC and sequevar is known for causing disease in ginger. Its presence in Peru, however, may be the result of the pathogen's introduction, as its geographical origin is associated with Asia (Fegan and Prior 2005). To our knowledge, this is the first report of R. pseudosolanacearum causing ginger wilt disease in Peru. In 2024, an estimated average yield loss of 30% has been attributed to wilt disease in the Junín region, posing a significant threat to cultivation. Urgent and effective disease management strategies are essential to control and mitigate further losses.

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来源期刊
Plant disease
Plant disease 农林科学-植物科学
CiteScore
5.10
自引率
13.30%
发文量
1993
审稿时长
2 months
期刊介绍: Plant Disease is the leading international journal for rapid reporting of research on new, emerging, and established plant diseases. The journal publishes papers that describe basic and applied research focusing on practical aspects of disease diagnosis, development, and management.
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